Monaco high-power, femtosecond-lasers offer superior edge quality for micromachining and improved scientific applications such as three-photon microscopy.
To close the time gap when it comes to tube checks, some machinery manufacturers are using cameras for these checks. They reduce the quality check to about half a second and also reduce the number of rotations that are required. This allows the machine to retain productivity as well as accuracy.
Lasertube systems are 2D and 3-D laser cutting systems that can be used to cut tubes, bars, and profiles. They come in a range of sizes, including 12 mm to 661 mm (.5"-.24") in diameter, and up to 18m (60' in length).
StarCut Tube L 600 comes with a fiber or USP laser. StarCut Tube SL, a compact model that has the smallest footprint available on the market, is the StarCut Tube SL.
The option to choose between 2D/3D laser cutting technology allows for the possibility of customizing and precise cutting parts in a wide range of shapes. These include tubes with square, rectangular, and round shapes, as well as profiles with varied open cross-sections (e.g. H, L. T, Ucross-sections). 3D technology is capable of cutting straight edges up to 45degrees. This flexibility makes it unnecessary to perform costly milling and drilling, punching, punching, or other sawing operations.
Use Coherent laser systems to cut, weld, drill, texturize, and mark medical devices for precision manufacturing.
There are two options for laser cutting technology: 2D or 3-D. You can customize and cut parts in many different shapes. For example, you can make tubes that have round, square and rectangular shapes. Also, you can cut profiles with various open cross-sections like H, L, T and Ucross-sections. 3D technology can also be used to make bevel cuts as high as 45degrees. This versatility makes it possible to eliminate the need for expensive milling, drilling and punching as well as sawing.
Find laser systems for electronics production that can perform high-precision, fast cutting, welding, marking and ablation of metals or plastics.
Many people believed that fiber lasers could only cut thin materials. The CO2, due to its longer wavelength created enough kerf when cutting thick materials. Fiber lasers couldn't produce the same result with thicker material. Recent developments have addressed this problem with collimating technologies that produce a larger fiber laser-generated beam which creates materials separation. Switchable beam width allows the machine to use the narrower beam for processing thin materials. This allows the machine to process multiple-sized materials more quickly on one fiber laser cutting machine.
Keep in mind that there is no such thing as a perfect tube. They have bows. Weld seams can protrude not only on the exterior but also the interior of the tube. It’s a real challenge to process this material consistently and rapidly when such inconsistencies exist from one product run to another.
You can find the right technology to meet your needs. You have the option of either CO2 laser or fiber laser cutting systems depending on what materials you are working with and how much productivity and quality you desire.
How can you compensate for this? Traditionally, you will touch your face with a sensor marking the contact point. The tube is then rotated and the opposite end of the tube touched. The control will then be able to see how bent the tube looks. This allows for precise measurements and ensures that the through-holes will work properly. Keep in mind, however, that every rotation of the tube reduces the ability for very high tolerances.
When making fitness equipment, the most important components are durability, usability, compactness, and design.
Check out our StarCut Tube laboratory and production area to see more about these fully-automated multi-axis CNC machine for tubes and flat materials.
A fiber laser cutting machine generates a laser beam using active optical fibers and transmits it to the machine's cutting head via a transport fiber. This extremely hot laser is condensed into a narrow beam and is used to cut through various metal thicknesses.
from 3 months to 3 years
Glass CO2 laser tubes all degrade over time, with lifespans ranging from 3 months to 3 years. With use, the CO2 inside the tube degrades into carbon monoxide and oxygen. Overdriving the tube only accelerates this process and shortens its working life.